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Plan-Seq-Learn: Language Model Guided RL for Solving Long Horizon Robotics Tasks
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Large Language Models (LLMs) have been shown to be capable of performing high-level planning for long-horizon robotics tasks, yet existing methods require access to a pre-defined skill library (e.g. picking, placing, pulling, pushing, navigating). However, LLM planning does not address how to design or learn those behaviors, which remains challenging particularly in long-horizon settings. Furthermore, for many tasks of interest, the robot needs to be able to adjust its behavior in a fine-grained manner, requiring the agent to be capable of modifying low-level control actions. Can we instead use the internet-scale knowledge from LLMs for high-level policies, guiding reinforcement learning (RL) policies to efficiently solve robotic control tasks online without requiring a pre-determined set of skills? In this paper, we propose Plan-Seq-Learn (PSL): a modular approach that uses motion planning to bridge the gap between abstract language and learned low-level control for solving long-horizon robotics tasks from scratch. We demonstrate that PSL achieves state-of-the-art results on over 25 challenging robotics tasks with up to 10 stages. PSL solves long-horizon tasks from raw visual input spanning four benchmarks at success rates of over 85%, out-performing language-based, classical, and end-to-end approaches. Video results and code at https://mihdalal.github.io/planseqlearn/
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Cited by 3 Pith papers
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SOLE-R1: Video-Language Reasoning as the Sole Reward for On-Robot Reinforcement Learning
A video-language model with per-timestep spatiotemporal CoT and dense progress prediction can serve as the sole reward for zero-shot online robot RL on 24 unseen manipulation tasks.
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Transforming Remanufacturing Automation with Large Language Models: A Forward-Looking Analysis with Case Studies
The authors propose ReManGPT, a conceptual orchestration framework for applying LLMs to remanufacturing, and illustrate it with case studies in disassembly planning, repair guidance, and robotic execution.
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HiBerNAC: Hierarchical Brain-emulated Robotic Neural Agent Collective for Disentangling Complex Manipulation
HiBerNAC, a multi-agent 'brain-inspired' planner layered on a reactive VLA, is claimed to cut long-horizon task time by 23% and reach 12-31% success where VLA baselines fail, but the supporting data are inconsistent.
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